philosophy of integrating the life sciences with engineering topical material,undergraduate BME programs include courses in mathematics, the physical and life sciences,engineering sciences (e.g. electric circuits, heat transfer) and a group of specialty BME courses.The latter may include biomechanics, biomaterials, bioinstrumentation, biotransport processes,BME laboratory and a senior design experience among other areas.Not surprisingly, as students at major universities become knowledgeable of the existence of anundergraduate BME program (e.g. via catalog or web site review), they consider the utility of aninterdisciplinary degree in BME for the pursuit of careers other than the traditional set listedabove. In particular, it has been common for
professional network.Networking has been long highlighted as an essential skill in finding a job11,12, but lessemphasized as part of an ongoing process of staying current, staying connected and stayingrelevant in one’s areas of knowledge and expertise. Benefits cited include13: 1. Gaining solid ground in the current operational state in which the engineer operates, even just within his or her own firm, significantly improves the ability to understand how every part of the organization contributes to the success of the company. 2. The pace of technology advances in every area of engineering increases, integration of these technologies across disciplines becomes more possible, sophisticated, existing technologies rapidly
premise is builtaround a prioritized list of topics (each linked to an associated student learning outcome) that areutilized in upper level courses or in the practice of civil engineering. The steps involved indeveloping a BOK are: 1. Development of an all inclusive topic list containing topicstraditionally taught as well as those that have been considered supplemental, 2. Development of amechanism for all faculty to provide input on each topic, 3. Synthesis and evaluation of the datacollected, 4. Creation of the prioritized topic list to be included in the curriculum, 5. Parsing ofthe BOK into logistical modules, and 6. Development of course format, sequence, and content tobest fit the BOK. An example of the BOK methodology applied to a
Paper ID #40824A Practical RF Engineering Curriculum for Engineering Technology Stu-dentsDr. Doug Kim, Farmingdale State College Dr. Kim is currently an associate professor in Electrical and Computer Engineering Technology at Farm- ingdale State College. He worked in RF and wireless industry for more than 15 years before joining academia. Dr. Kim received B.S. in EECS from University of California Berkeley, M.S. in EE from University of Southern California and Ph.D. from Stony Brook University, ©American Society for Engineering Education, 2023A Practical RF Engineering Curriculum for Engineering
have used Euler’s Method,Simpson’s rule, and the trapezoidal method for numerical integration in addition to the GoldenSection Search Method for optimization.Considering this background, students in the Material and Energy Balances course should beable to handle a problem with significant computational methods requirements. The tutorialproblem for this module uses the Golden Section Search Method to maximize the profit of an Page 4.299.3isothermal reaction. At constant temperature, only mass balances are required in solving thisproblem. The challenge problem then asks students to consider an exothermic reaction and againmaximize the profit
Paper ID #9355LEDs & Lamps – A Friendly Affordable Gateway to Electrical Exploration(Curriculum Exchange)Mr. Andrew Tubesing, University of St. Thomas Andrew Tubesing is Laboratory Manager for the Electrical Engineering program at University of St Thomas in St. Paul, MN. He also serves on the faculty of the UST Center for Pre-Collegiate Engineering Education. Andrew has taught university courses in circuits, electronics, and engineering design for more than a decade. Prior to his academic career, Andrew spent 12 years as an engineer in the broadcast and telecommunications fields. Andrew holds a BA from St. Olaf College
that constitute the technical core of the safetyand fire protection academic program. Simulation principles used in specific courses and itsapplication are described to illustrate the value of computer simulations in studentunderstanding of critical variables during fires.Integration of the program into the existing department curriculum was also an importantconsideration. The department offers three other engineering technology programs in fieldsthat are related to safety and fire protection. Courses from these programs were incorporatedinto the curriculum and enhanced with additional safety and fire protection considerations.Figure 1 shows students doing research on the effect of ambient temperature on the vitalfunctions of an
techniques involvingfrequency ratio, damping, and tuned absorption are covered. Also, since engineeringtechnologists are often called upon to perform computer simulations of mechanical systems, aportion of the course is focused on computer modeling, the importance of defining properboundary conditions, and interpretation of results in dynamic analyses.The course fills an emerging and often neglected need in engineering technology education.According to Accreditation Board for Engineering and Technology, there are 68 other U.S.schools offering baccalaureate degrees in Mechanical Engineering Technology. A review oftheir respective web sites indicates that only eleven of those schools offer a vibrations course intheir Mechanical Engineering Technology
, and to the balancing act needed inthe academic environment between training and educating students in preparation for theircareers. The paper by Al-Rawi, Lansari and Bouslama3 focuses on the challenge of keepingcurrent one's curriculum and how the integration of certification objectives provided theirstudents with a sufficient body of knowledge to take the SCPJ2 1.4 exam; it was reported thattwo-thirds of their students successfully passed. Other programs have looked at the integrationof certification training into an academic program; in his paper, Zeng4 discusses a curriculummodel in place at Indiana Wesleyan University for IT certifications in a two-year associatesdegree program and tackles the larger discussion of the necessity of
technologies in education. She has published 15 peer-reviewed journal articles and book chapters and delivered more than 50 presentations at international and local conferences and event and served as the Co-Managing Editor of the Teaching Online Pedagogical Repository.Dr. Richard Hartshorne, University of Central Florida Richard Hartshorne is an Associate Professor and Coordinator for the Instructional Design & Technology program at the University of Central Florida (UCF). He earned his Ph.D. in Curriculum and Instruction with a focus on educational technology production and technology and teacher education from the Uni- versity of Florida. Prior to his tenure at the UCF, Richard was an Assistant and Associate Professor of
Programs.Especially noteworthy are those partnerships involving undergraduate/graduate projectteams. These opportunities lead to enhanced learning for students and strong supportfrom industry for academic programs. Studies of powder flowability as a function ofparticle size and reengineering of toner cartridges have been especially successful.Introduction and Background: The importance of academic/industrial partnerships in an engineering curriculumcannot be overemphasized. These interactions lead to significant benefits for theacademic institution and the industrial partner. Students are exposed to engineeringpractice as part of their undergraduate experience, and the curriculum can becontinuously updated to reflect realistic technological advances
traditional undergraduatechemical engineering course and the assessment of that integration by examination of thefeedback loop highlighted by the dashed enclosure in Figure 1. Formulation of General Green Engineering Concepts Incorporation of General Concepts Into Specific Engineering Courses And Development of Green Engineering Problems Assessment by Presentation of Green Engineering Instructor Problems
for Engineering Education’s “Year of Action onDiversity.” It is essential that we have a diverse engineering workforce to solve diverseproblems. To do that and to have an engineering-literate public, it is essential that we reach everypreK-12 student with high-quality engineering education, drawing on issues of access and equityin the classroom and in the curriculum. Reviewers would like to know how your proposedworkshop will address diversity.Provide a description of how you will explicitly address diversity – e.g., diversity with respect togender/sex, ethnicity or race, special education inclusion, socio-economic status, or LGBT status– in your workshop (maximum 2,000 characters):The premise and goal of this workshop is to ultimately
with job-related experience may already have extensive knowledge in various areas of their fields of study. This experience, in many cases, may be equivalent to what is being taught in some of the engineering courses or general education classes. Documentation of work experience through portfolio development may qualify students for an exemption from courses normally required to receive an engineering degree. At the end of the semester, the student and academic advisor will assess the contents of the portfolio and develop an individualized curriculum plan (ICP) based on the student’s demonstration of knowledge and experience in the field of engineering.Thomas Angelo5 points out that a number of
Session 1150 A Demonstration of Heat Affected Zone from Welding Richard Englund, Shannon Sweeney, David Johnson The Pennsylvania State University at Erie, The Behrend CollegeAbstractHeat effects on base metals caused by welding are often described to students in courses inmanufacturing, design, or materials. An example where students may measure these effects wasdeveloped, is presented here, and is intended for programs and students who prefer to learn fromconcrete examples, as is typical of many engineering technology students. Description ofsituations where heat effects may be deleterious are
developmentinitiative. Systemic pedagogical reform can best succeed if a new curriculum is implemented in asustainable fashion and becomes institutionalized within a school or district.Teacher training to support in-classroom implementation is therefore an important aspect of thecurriculum development process. The ITL Program conducts two-day summer teacher workshopsspecific to a curricular unit, as a way for teachers to gain confidence in and knowledge of acurricular unit prior to bringing it into their classrooms.Sustainability can also be assisted via broad dissemination on the Internet, providing “one-stopshopping” for teachers seeking innovative, inquiry-based approaches to integrating the teaching ofmath and science. Available summer 2004, a searchable
Conforming a New Manufacturing Engineering Curriculum to the SME Four PillarsAbstractThis paper will highlight the challenges in developing a manufacturing engineering curriculumthat conforms to the SME four pillars based on the experiences of the Engineering and Design(ENGD) department at Western Washington University (WWU). These experiences are uniquein a number of ways. Foremost, this program was created by transitioning an existingManufacturing Engineering Technology (MET) program that included an option in CAD/CAM.As a result, the new program was designed to incorporate the strengths of this long establishedtechnology program. One of these is hands-on intensive lab experiences within courses thatrequire students to
Paper ID #29987Civil engineering students’ beliefs about the technical and socialimplications of global warming and when global warming will impact thempersonally and othersDr. Andrew Katz, Virginia Tech Andrew Katz is an assistant professor in the Department of Engineering Education at Virginia Tech.Dr. Tripp Shealy, Virginia Polytechnic Institute and State University Tripp Shealy is an Assistant Professor of Civil and Environmental Engineering at Virginia Tech.Dr. Allison Godwin, Purdue University at West Lafayette Allison Godwin, Ph.D. is an Assistant Professor of Engineering Education at Purdue University. Her research
engineering curriculum. The newer ones have a sprinkling of examples and problems from non-traditional specialty areas, but not enough to provide good coverage of any one area. There are some good one- or two-semester comprehensive texts in specialty areas, usually aimed at seniors and graduate students; but there are currently no texts or series of texts designed to cover the specialty in an integrated fashion throughout the curriculum. Page 10.1310.9 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005
Paper ID #23523Planning of Curriculum Modules for Teaching of Fluid Power ConceptsDr. Jorge Rodriguez P.E., Western Michigan University Faculty member in the Department of Engineering Design, Manufacturing, and Management Systems (EDMMS) at Western Michigan University’s (WMU). Co-Director of the Center for Integrated Design (CID), and currently the college representative to the President’s University-wide Sustainability Com- mittee at WMU. Received his Ph.D. in Mechanical Engineering-Design from University of Wisconsin- Madison and received an MBA from Rutgers University. His B.S. degree was in Mechanical and Electrical
Session 2630 A Conceptual Framework for Progressively Developing Students' Team and Problem Solving Skills Across the Curriculum Michael Prince, Michael Hanyak, Brian Hoyt, Daniel C. Hyde, E.J. Mastascusa, William Snyder, T. Michael Toole, Mathew Higgins, Steve Shooter, Marie Wagner, Margot Vigeant, Maurice Aburdene Bucknell UniversityAbstractProject Catalyst is an NSF-funded initiative to promote systemic change in engineeringeducation by utilizing proven instructional design techniques, transforming the classroom into anactive
. Page 24.345.1 c American Society for Engineering Education, 2014 Curriculum Design and Assessment to Address the Industry Skills GapAbstractThe bureau of labor statistics notes that the current number of open positions in the United Statesis approximately 3.7 million, yet the official unemployment rate (U-3) remains at 7.3%representing 11.3 million people, while an alternative and more inclusive measure ofunemployment (U-6) is 13.7% and represents 21.2 million people1. The existence of unfilled andavailable positions, as compared to the total number of unemployed persons, is significantlyinfluenced by the availability of qualified candidates in areas for which there is an apparent skillsgap, i.e. jobs for which
the lessons learned from these curricular efforts and adds the additionalcontent area of industrial design to the curriculum.For true curricular improvement, it is not enough to include topics of continuous improvement ineducation; rather, manufacturing education must shift to a new paradigm of learning16.Chisholm19 draws a parallel between the design of curriculum in the university and the design ofproducts and systems by industry. His theme is that, to better prepare future engineers for theirroles in a rapidly changing world, there needs to be a completely new approach to the educationand training of manufacturing engineers. This approach should follow an integrated orconcurrent model of design and manufacturing. This integrated approach
community has madesignificant efforts to create a number of network simulation tools to support hands-on projects invarious network layers. However, how to develop an effective teaching strategy to integrate thenetwork simulator-based projects into network courses as project-based and inquiry-basedlearning tools still remains a challenging task. In addition, due to the huge difference amongdifferent institutions, successful implementation experience in one institution usually cannotdirectly apply to the others. Recently, California State University Los Angeles (CSULA)received a CCLI grant from NSF to explore a good solution to enhance the learning of a verydiverse student body in a multicultural campus that serves a significant number
required, even in an introductory class.We have implemented this vertical lab structure in the Introduction to Biomedical Engineeringclass at Bucknell University during the fall semester of 2004. The class consisted of 13sophomore BME majors. The class has an integrated lecture/laboratory format which meets fivehours a week in two two-hour blocks, and a one hour lecture. Laboratories are generally carriedout within the two hour block. The purpose of the course was to give students an introduction tosome of the fundamental aspects and concepts of biomedical engineering including biofluidmechanics, biomedical mass transport, and bioinstrumentation. The goal of the laboratory was toreinforce technical concepts from class and to prepare the students
teach allthe “tool” subjects without hopelessly overloading the curriculum it will be necessary toprovide some form of integration. The possibility of understanding the principle ofmutual relations would seem to be better in an integrated program than in a traditionalsubject based curriculum. The key to creating that understanding and developingreflective practice will be in the techniques of assessment that are used and the backwasheffect they have on teaching as well as learning. The model shown in exhibit 2 isintended to illustrate this fact and also to show what is possible in a short period of time.It is based on part of course that was developed for the Engineer in Society examinationof the Council of Engineering Institutions in the UK
Institute of Technology, University of Virginia, University of Cincinnati, Raytheon, andArthur D. Little has developed a new digital system design curriculum and supporting courseinfrastructure in the form of an electronic archive of instructional material – course modules,labs, projects, and interactive educational CD-ROMs. Included in this electronic archive ordigital library are over 200 hours of instructional material suitable for immediate insertion atthe undergraduate and graduate levels. To date, over 80 educational institutions have obtainededucational material developed by the RASSP E&F team. In this paper, we present the technicalgoals and rationale, including an Educational Maturity Model (EMM), motivating our efforts.Additional
regional high school faculty over the past year and one half haveresulted in three clear messages. First, a set of disjoint high technology materials and examplesthat the teachers must integrate into their courses would simply not be used. Second anymaterials provided must match the time constraints associated with typical lecture formats.Finally, any new material added to the curriculum must be consistent with the guidelines of astate approved curriculum. Cognizant of these constraints our team of educators set about thedevelopment of technology based modules that could be used by high school faculty to enhancethe presentation of their science topics.This paper reports on our initial efforts to develop and provide these module materials. The
and process datadirectly instead of receiving artificially or simulated data. Our laboratory curriculum integratesthe Raspberry Pi, an inexpensive and versatile single-board computer, with a standard computerto provide dynamic and engaging biomedical-engineering-related programming activities in anintroductory MATLAB course, all without complicated MATLAB commands or routines. Thetotal cost for each station is only about $75 or less. Concurrently, more complicated engineeringconcepts are introduced at this early level to pique interest in biomedical engineering andimprove learning in later classes when these concepts are described in more detail. Studentsreport enjoying programming more and seeing its quintessential role in engineering
wasimplemented at RainStar University to design and develop MS curriculum in the Acupunctureand Oriental Medicine. The implementation was not only successful but exceeded theprofessional competencies. In addition, the QFD technique ensured that the curriculum is agileand flexible to meet future real-world changes [9] [10].Based on the literature review and the research in this area our team decided to use QFDtechnique in the design and development of an existing associate degree in engineering atDaytona State College (DSC) to meet industry workforce needs and professional competencies[11].Curriculum Design and DevelopmentTo identify the gap between industry and academia and to create the best set of educational andprofessional development materials